Guidance, ideas and examples to support schools in developing their curriculum, pedagogy, enrichment and support for more able learners, within a whole-school context of cognitively challenging learning for all. Includes ideas to support curriculum development, and practical examples, resources and ideas to try in the classroom. Popular topics include: curriculum development, enrichment, independent learning, questioning, oracy, resilience, aspirations, assessment, feedback, metacognition, and critical thinking.
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Posted By Gail Roberts,
15 January 2019
Updated: 23 December 2020
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Gail Roberts, More Able and Talented Coordinator at Llanfoist Fawr Primary School, shares a simple but effective activity to engage and challenge all learners – combining mathematics, oracy, collaborative working and more…
Facilitating learning, rather than directional teaching, not only ensures children take ownership, it also opens the floodgates to more able learners. Obviously it is vital to choose an effective challenging task and teach the skills they need beforehand, in order for learners to access the experience fully and develop it further through ongoing evaluation.
In the past at school, children may have brought cakes in from home to sell as an enterprise activity. Although this is usually an enjoyable experience, it isn’t a true representation of the profit and loss of running a business, and fails to optimise on additional opportunities for learning.
In this alternative activity, I ask learners to work in teams to make 3D shapes and then come up with a plan to sell them. This gives them a tangible experience, a determination for gaining information about shapes, and a chance to make choices which they can then witness the effects of at first-hand.
Develop key skills and understanding
From two weeks before the planned “sale day”, I encourage learners to consider the skills they will need and provide opportunities for them to develop these. Identified skills include:
- Persuasive language – learners are challenged to think of sentences that will entice people to stop at their stall, come up with a catchy jingle or slogan, etc.
- Negotiation – bartering on prices for the shapes.
- Understand profit and loss and interest.
- How to keep a record of the accounts, on paper or electronically.
- Elect leaders of the group and allocate team members.
- Sell using at least two languages.
- Working effectively as a team toward a shared aim.
Teaching the children how to formulate the boxes on a spreadsheet is easy, if you have previously taught coordinates. When spoken about in simple terms, profit and loss can be seen by every child. Allowing more able learners to formulate the spreadsheet gives them the opportunity to make it as complex as they want, while the opportunity to develop a business plan allows more able business minds to shine.
Giving learners time to think and plan for the sale day ensures that ideas can be evaluated and developed, and allows the group to come together as a team.
Replicate real-life challenges
The activity can also be used to help learners develop their understanding of real-life business processes and challenges, including:
- Premises to rent – every 15 minutes learners must pay rent for their stall; if late, they incur a fine.
- Property maintenance – fines incurred for untidy stalls.
- Marketing – stalls decorated to attract customers.
- Interest rates – opportunity to start business with a loan, which must be paid back with interest.
Allow learners to shape the activity
The learning can be further enriched by inviting learners to suggest rules for the running of the activity. For example:
- When buying, be willing to pay more if learners can answer questions on the properties and names of the shapes, and if well-made or decorated.
- If someone in the group is not working efficiently, allow the team leader to give a warning or sanction.
Over many years of facilitating this kind of learning, the outcome has never been the same twice. Learners think of things that I would never have come up with. For example, this year they discussed ideas to test individual skills and allocate jobs based on ability, rather than simply getting every team member to cut, decorate, stick and sell. They discussed ideas about firing those who weren’t working hard enough, buying other teams’ products and selling them on at a profit, buying another table to expand their company, and researching language patterns and properties of shapes in order to sell to a broader audience knowledgeably.
What learners say…
While the summary above is hopefully sufficient to allow you to run a similar activity in your school, the impact is best expressed in the words of learners themselves:
“I thought this was an excellent idea for learning. Without realising it, we were making many cross-curriculum links, especially between maths and oracy. We were using strategies for problem solving and working as a team. We were having fun but learning at the same time.”
“I think learning in this way makes it easier to learn, because we are learning important things, but at the same time having fun. I prefer learning this way. I like being in charge of my own learning, thinking outside of the box, rather than being told.”
“This was a fun, challenging and exciting learning environment. This made it easier to remember the skills we needed and to use them effectively.”
“At the start of the challenge I didn’t have a clue what a spreadsheet was, but I enjoyed the challenge and felt proud that I could format the whole sheet myself and code new boxes when I needed to.”
“Communicating in a different language was challenging. However, it helped me to appreciate other people’s struggles to speak English. Our group worked cooperatively, making the most of individual talents.”
“It didn’t feel like we were learning. However, reflecting back on what we did, I realise I learnt and used a vast range of new skills.”
“It took me a matter of minutes to learn the properties and names of a massive amount of different 3D shapes. This was because I had a real purpose to learn. I was so proud when a visitor asked me questions on the properties and I blew him away with my knowledge and how confidently I was able to answer his questions.”
“It helped me to understand the importance of working as a team. We all had a job to do. These were selected, because we could do that particular thing really well. It made me feel like it was an actual place of work and we were actually doing a ‘job’. Real-life situations like these help me to realise the importance of everyone’s unique abilities.”
Gail Roberts is the MAT Coordinator, Maths Coordinator and Year 5 teacher at Llanfoist Fawr Primary School in Monmouthshire. She has worked in education since 1980, starting out as an NNEB with children with severe difficulties in basic life skills, and gaining her NPQH in 2007. Llanfoist Fawr gained the NACE Challenge Award in 2017, in recognition of school-wide commitment to high-quality provision for MAT learners within a context of challenge for all.
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Posted By King Edwin Primary School,
15 January 2019
Updated: 06 August 2019
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You may already be using the free maths resources provided by the University of Cambridge’s NRICH project – but are you getting maximum impact from them, for all your learners? In this blog post, Anthony Bandy, Assistant Head Teacher at King Edwin Primary School and a participant in the NACE/NRICH ambassador scheme, shares five ways to rethink and improve your approach…
Before joining the NACE/NRICH ambassador programme, I honestly thought I was using NRICH correctly… However, since accessing the programme, I have come to realise that I was not even close to using the resources to their full potential!
Like many others, I had previously used NRICH simply as an extension activity for the more able. However, NRICH is in fact based on a “Low threshold, high ceiling” approach – basically meaning that all learners can access the resources, and push themselves to what they want to achieve.
Following my participation in the NRICH ambassador training, and subsequent opportunities to share this training within my own school and more widely, here are five steps to get maximum value from NRICH for all learners in your maths lessons…
1. Look beyond “maths mastery”
When the new maths curriculum arrived, our school had some very negative data, with problem solving and reasoning causing the biggest issues. Our response was to focus on maths mastery.
However, during my first training session as an NRICH ambassador, it became apparent that mastery is only a method of delivering maths; it is not a government expectation, and it is also not necessarily sufficient to fully meet the needs of all young mathematicians.
You can read more about the NRICH perspective on mastery here.
2. Use NRICH throughout each unit of work, for all learners
As a school, we changed how we delivered mathematics. We’ve adopted a “Six Stages of Learning” approach, which involves teaching, fluency, problem solving, reasoning, hybrid and mentoring for every objective, and is also developmental for individual learners.*
Importantly, NRICH is not just used towards the end of units. In some classes, NRICH activities have been used to introduce topics. For example, the “ Swimming Pool” activity was used in Year 5 to introduce the concept of negative numbers. This worked really well, with children having to think of various potential concepts.
In addition, we decided to further implement our stages of learning by including NRICH as our Stage 5 (hybrid stage). We agreed that when the curriculum mapping resource permits and there is an activity available (see below), teachers will implement the activity for all learners to access, giving all individuals the exposure to problem solving and reasoning activities.
3. Incorporate NRICH in planning
As the NACE/NRICH ambassador, I delivered a training session for all staff. We looked closely at the curriculum mapping resources on the NRICH website, outlining links between mathematics objectives and NRICH activities. This resource definitely helped teachers to plan for NRICH activities in their lessons, rather than simply “throwing in” an activity as an extension or filler.
During the training, we also focused on how to use the NRICH resources to their full potential, looking at how NRICH provides guidance on questioning, starting points and solutions.
4. Encourage learners (and teachers) to explore multiple solutions
Prior to the training, some staff had mentioned feeling unsure about the solutions. We’d also found that our more able learners sometimes struggled when asked to think of a different approach to a problem. In their minds, they already knew the right answer, so therefore didn’t need to find another way. We asked ourselves “Are these types of learners true ‘problem solvers’, if they only know one way to solve a problem?”
The NRICH solutions pages have proven useful for both teachers and learners, giving examples of what a good solution might look like – and reminding both groups that there may be more than one “right” answer. More likely than not, there will be a variety of different solutions. In order for learners to develop as confident problem solvers, it’s important that they can find and understand a variety of approaches.
5. Embrace the “low threshold, high ceiling” approach
Sharing the published solutions has exposed all learners to examples of excellent quality reasoning, which is then reflected in their own practice. A fantastic example of this, along with the “low threshold, high ceiling” approach, came during a Year 5 lesson exploring the topic: “What came first – the chicken or the egg?”
With this topic in mind, we looked at the “ Eggs in baskets” activity, which is predominantly a KS1 problem. In the lesson, all learners were able to have a go at the activity, with most adopting a visual representation (e.g. circles as baskets), using trial and improvement to solve the problem. Once learners had been successful, I gave them printouts of the published solutions and asked them to try and work out how others had solved the activity.
I gave my most able learners copies of a solution completed by a secondary pupil, who had solved the problem using algebra. Without my guidance, I asked them to look at the algebraic solution and try to work out how it had been achieved. A short while later, they came to me and could explain the algebraic solution.
I then found a similar problem involving the Cookie Monster and cookies eaten per day. I asked my more able learners to try and solve it using algebra – simply from their experience with the previous activity. This emphasises the “low threshold, high ceiling” scope of NRICH – what began as a KS1 problem ended up as a KS3 problem, using algebraic equations!
The lesson was so successful that when delivering an NRICH session to 40+ schools at a Nottinghamshire Maths Network Meeting, I took a learner along to demonstrate their achievements and explain the processes behind them.
Impact and next steps…
Teachers in our school are now using NRICH more effectively and more of our learners are being exposed not only to crucial problem-solving skills, but also to important collaborative life skills.
Our 2017-18 results were our most successful since the new curriculum, and are on track to be beaten again. But even more importantly, when NRICH is mentioned in any class, learners respond with great enthusiasm, which demonstrates the productive disposition element of the five essential aspects to developing young mathematicians ( read more on the NRICH website).
Our next steps as a school will be to deliver training on “working mathematically” and collaborative learning – a vital skill for all our learners to develop for their future studies and careers.
* For more information on the “Six Stages of Learning” or other approaches mentioned in this blog post, please contact the school via NACE.
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Posted By Edmund Walsh,
03 December 2018
Updated: 22 December 2020
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Published earlier this term (exclusively available to NACE members), the NACE Essentials guide to realising the potential of more able learners in GCSE science offers guidance for science leaders and teachers seeking to improve the quality of challenge in their lessons. In this excerpt, guide author Ed Walsh shares 10 “killer questions” all science departments should consider when reviewing provision for those capable of attaining the highest grades in the subject.
1. How close is the relationship between objectives and questions used in lessons and the outcomes and command words used in the exam specifications?
If the former are dominated by stems such as “know” and “understand”, how well will learners be prepared to answer higher-order exam questions with stems such as “suggest” and “justify”?
2. How are learners being encouraged to apply ideas to novel contexts?
It isn’t necessarily the case that topics should start with concepts and then progress to application; in some cases, application may be a good way to introduce a topic and develop ideas.
3. Are learners presented with evidence to analyse?
What opportunities do they have to engage with something such as a diagram or graph to make sense of and interpret?
4. What common cause is being made with maths?
What might be learned if a science teacher were to observe more able learners being taught maths, and the maths teacher then to see them in science?
5. Are maths skills being ramped up?
It’s worth deconstructing stretch and challenge questions in terms of the maths skills and then thinking through how to teach these. As well as having mastery of individual skills, students need to be able to select and combine skills.
6. Is a good range of types of high-level questions being used?
Make sure these are not solely based on understanding complex ideas. When asking higher-level questions you can increase challenge by altering the stem of the question, broadening the range of command words you use. You can also ask for a longer response, possibly one that requires linking ideas from different parts of the subject.
7. Is the teacher modelling effective practice in answering extended questions?
Can students recognise such a question, and plan a structure and approach to answering it? Try modelling the construction of a high-quality response, showing how you select key terms, structure the writing and ensure it matches what the examiner is looking for.
8. How effectively is assessment data being used to identify development areas?
How well can learners complete the sentence “To get a good result in science I need to focus on…”? What’s guiding their revision?
9. How has data from the summer 2018 series been used to identify development areas?
It should be possible to interrogate candidate performance to answer questions such as “How well did high-attaining learners in my school cope with AO2 questions and how does this compare with the national picture?”
10. How well does KS3 prepare students for GCSE science?
Is the KS3 course doing its job in terms of getting more able learners to be “GCSE-ready”? How well does it support able learners to master key ideas, understand how to investigate various phenomena and use skills from other parts of the curriculum such as working numerically and developing written responses?
Read more…
- Log in to our members’ site for the full NACE Essentials guide to realising the potential of more able learners in GCSE science.
- Not yet a member? Find out more.
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Posted By Alex Pryce, Oxplore,
23 April 2018
Updated: 08 April 2019
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Looking for ideas to challenge your more able learners in maths? In this blog post, Alex Pryce selects four maths-focused “Big Questions” from Oxplore, an initiative developed by the University of Oxford.
Oxplore is an innovative digital outreach portal from the University of Oxford. As the “Home of Big Questions”, it aims to engage 11- to 18-year-olds with debates and ideas that go beyond what is covered in the classroom. Big Questions tackle complex ideas across a wide range of subjects, drawing on the latest research undertaken at Oxford.
In this blog post, I’ve selected four Big Questions which could offer super-curricular enrichment in different areas of mathematical enquiry. Teachers could ask students to use the questions as the starting point for a mini research project, or challenge them to create their own Big Questions to make practical use of mathematical skills. The questions could also be used to introduce more able mathematicians to fields they could study at university.
Delve into the digits with an exploration of two very different careers. Discover the statistics behind the professions, and debate how difficult these job choices are. We all know that nurses do a fantastic job, but what about footballers who devote their time to charity work? Who should earn more? Get involved in debating labour markets, minimum wage, and the supply and demand process.
Perfect for: budding economists and statisticians.
What does truth really mean? Can we separate what we believe to be true from scientific fact? Discuss what philosophers and religious figures have to say on the matter, and ponder which came first: mathematics or humans? Did we give meaning to mathematics? Has maths always existed? Learn about strategies to check the validity of statistics, “truth” as defined in legal terms, and the importance of treating data with care.
Perfect for: mathematicians with an interest in philosophy or law.
Take a tour through the history of money, debate how much cash you really need to be happy, and consider the Buddhist perspective on this provocative Big Question. Discover the science behind why shopping makes us feel good, and explore where our human needs fit within Maslow’s famous hierarchy.
Perfect for: those interested in economics, sociology and numbers.
How can we avoid bad luck? Where does luck even come from, and are we in control of it? Where does probability come into luck? Delve into the mathematics behind chance and the law of averages and risk, taking a journey through the maths behind Monopoly on the way!
Perfect for: those interested in probability, decision-making and of course, board-game fans!
Alex Pryce is Oxplore’s Widening Access and Participation Coordinator (Communications and Engagement), leading on marketing and dissemination activities including stakeholder engagement and social media. She has worked in research communications, public engagement and PR for several years through roles in higher education (HE) and the Arts and Humanities Research Council (AHRC). She holds a DPhil in English from the University of Oxford and is a part-time HE tutor.
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Posted By NACE team,
16 April 2018
Updated: 21 August 2019
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Seeking ideas to support exceptionally able learners in mathematics? Based on the guidance provided by the University of Cambridge’s NRICH project, here are five important steps you can take to ensure exceptionally able learners are effectively challenged and supported…
1. Offer a challenging task related to the class activity.
The idea here is to offer an extension task which is sufficiently challenging, while still related to the mathematical concepts on which the rest of the class is working. This should help exceptionally able learners to feel included within the wider group, while being given the breadth and depth they need.
For ideas of challenging tasks linked to the maths curriculum, take a look at NRICH’s primary and secondary resource pages.
2. Tailor homework to the learner’s interests.
Just as in the classroom, it’s important to ensure exceptionally able learners are adequately challenged during independent and home-based learning. Offer a more challenging version of the homework set for other learners, and where possible tailor work to match exceptionally able learners’ interests to keep them engaged and motivated.
3. Consider setting work usually covered later in the key stage.
This should only be considered once other avenues have been explored and the learner has achieved mastery of current content. While acceleration can be beneficial in some cases, it can lead to exceptionally able learners being left with little support, with limited opportunities to discuss mathematics with peers, or feeling isolated if moved to work with older learners. If considering this option, ensure that the learner is ready academically, emotionally and socially, and that sufficient support is in place.
4. Have a long-term plan for the learner's mathematical education.
This is key when considering acceleration and other options. Discuss the long-term plan with the exceptionally able learner, his/her parents or carers, and other providers. If covering Key Stage 3 work with a primary learner, for example, ensure that a plan is in place so that s/he will not simply cover the same material all over again once arriving at secondary school.
5. Support the learner's interest in mathematics outside school.
There are lots of opportunities for exceptionally able learners to pursue their interest in mathematics outside of school, and to meet peers with similar interests and abilities. Keep an eye on opportunities provided by the UK Mathematics Trust (UKMT) and the Royal Institution Masterclass series, for example. The UKMT also offers a free mentoring service, providing mentors to help young mathematicians develop their problem-solving skills.
More free resources from NRICH:
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Posted By Sarah Carpenter,
05 April 2018
Updated: 22 December 2020
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Are your primary maths lessons too quiet? Ahead of her upcoming workshop on strengthening talk in primary maths, NACE associate Sarah Carpenter explains why effective discussions are key to deepening and extending learning in this core subject.
Often there’s an assumption that primary mathematics is about numbers, concepts, operations – and not about language. But developing the language of maths and the ability to discuss mathematical problems is essential to help learners explore, reflect on and advance their understanding.
This is true for learners of all abilities. But for more able mathematicians in particular, regular opportunities to engage in talk about maths can hold the key to deeper, more secure understanding. Moving away from independent, paper-based work and the tunnel-vision race to the answer, discussion can be used to extend and deepen learning, refocus attention on the process, and develop important analytical, reflective and creative skills – all of which will help teachers to provide, and learners to be ready for, the next challenge.
If you’re still not sure why or how to use discussions effectively in your primary mathematics lessons, here are five reasons that will hopefully get you – and your learners – talking about maths…
1. Spoken language is an essential foundation for development.
This is recognised in the national curriculum: “The national curriculum for mathematics reflects the importance of spoken language in pupils’ development across the whole curriculum – cognitively, socially and linguistically. The quality and variety of language that pupils hear and speak are key factors in developing their mathematical vocabulary and presenting a mathematical justification, argument or proof.” – National curriculum in England, Department for Education, 2013
Or to put this another way, when else would we expect learners to write something if they cannot say it? As Anita Straker writes: “Sadly, children are frequently expected to write mathematics before they have learned to imagine and to discuss, and those who do not easily make connections are offered more pencil and paper work instead of vital talk and discussion. Yet in other subjects it would be unthinkable to ask children to write what they cannot say.” – Anita Straker, Talking Points in Mathematics, 1993
2. Practice is needed for fluency…
… and fluency is what the new SATs expect – not only in numbers and operations, but in the language of mathematics as well. For mathematical vocabulary to become embedded, learners need to hear it modelled and have opportunities to practise using it in context. More able learners are often particularly quick to spot links between mathematical vocabulary and words or uses encountered in other spheres – providing valuable opportunities for additional discussion which can help to embed the mathematical meaning alongside others.
Free resource: For assistance in introducing the right words at the right stage to support progress in primary maths, Rising Stars’ free Mathematical Vocabulary ebook provides checklists for Years 1 to 6, aligned with the national curriculum for mathematics.
3. Discussion deepens and extends mathematical thinking.
The work of researchers including Zoltan Dienes, Jerome Bruner, Richard Skemp and Lev Vygotsky highlights the importance of language and communication in enabling learners to deepen and extend their mathematical thinking and understanding. Beyond written exercises, learners need opportunities to collaborate, explain, challenge, justify and prove, and to create their own mathematical stories, theories, problems and questions. Teachers can support this by modelling the language of discussion (“I challenge/support your idea because…”); using questioning to extend thinking; stimulating discussion using visual aids; and building in regular opportunities for paired, group and class discussions.
4. Talk supports effective assessment for learning.
More able learners often struggle to articulate their methods and reasoning, often replying “I did it in my head” or “I just knew”. This makes it difficult for teachers to accurately assess the true depth of their understanding. Focusing on developing the skills and language to discuss and explain mathematical processes helps teachers gain a clearer picture of each learner’s current understanding, and provide appropriate support and challenge. This will be an ongoing process, but a good place to start is with a “prior learning discussion” at the beginning of each new maths topic, allowing learners to discuss what they already know (or think they know) and what they want to find out.
5. Discussion helps higher attainers refocus on the process.
More able mathematicians often romp through learning tasks, focusing on reaching the answer as quickly as possible. Discussion can help them to slow down and refocus on the process, reflecting on their existing knowledge and understanding, taking on others’ ideas, and strengthening their conceptual understanding. This slowing down can be further encouraged by starting with the answer rather than the question; asking learners to devise their own questions; pairing learners to work collaboratively; using concept cartoons to prompt discussion of common misconceptions; and moving away from awarding marks only for the final solution.
During her 20-year career in education, Sarah has taken on a variety of roles in the early years and primary sectors, including classroom teaching, deputy headship and local authority positions. After a period as literacy and maths consultant for an international company, she returned to West Berkshire local authority, where she is currently school improvement adviser for primary maths and English. As a NACE associate, Sarah supports schools developing their provision for more able learners, leading specialised seminars, training days and bespoke CPD.
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Posted By Lesley Hill,
27 February 2018
Updated: 23 December 2020
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Lesley Hill, headteacher of NACE member Lavender Primary School in North London, explains how the school’s approach to marking and feedback has evolved alongside the development of a strong learning mindset culture.
Our marking and feedback policy cannot stand alone. It only works because we have embedded the learning culture on which it depends.
About five years ago, we were proudly using assessment for learning (AfL) strategies, such as no hands up, colourful cups, and thumbs up, thumbs down and thumbs somewhere in between. None of this was particularly useful for those learners who were unable to be honest about where they were in their understanding. This became apparent to me during a Year 2 literacy lesson. I shook my lolly-stick pot and was ready to pick a child to answer my question, when a higher achiever visibly shuddered. That said it all.
We turned to the work of Carol Dweck and immediately introduced growth mindset, understanding that higher-achieving children can often be those with the most fixed mindsets, causing barriers to learning.
Developing skills for effective learning
We knew that embedding a growth mindset culture was essential, but we also realised very quickly that the skills of being a good learner had to be taught too. A school full of determined children chanting (albeit sweetly) “We can do it!” doesn’t necessarily mean better outcomes. We introduced themes around Guy Claxton’s work, Learning to Learn, and our children learnt to be resourceful and reflective, as well as resilient.
We also understood that if children were truly going to understand where they were as learners, we needed to examine our success criteria. Hours had been spent trying to put English success criteria into a hierarchical order with a must, a should and a could. Whilst our lower-achieving children stayed safely with the “musts”, some of the higher-achievers completed the “should” and “coulds” and missed some basic “musts” altogether. We ditched MSC for toolkits, after attending a Pie Corbett course.
Giving children ownership of their learning
The same training also prompted us to establish cooperative reviews, which offer a focused and structured peer assessment strategy. We have trained our children to give effective feedback and to have useful discussions around their learning. This is key. Our current marking policy includes lots of peer assessment and reflection, which begins to give ownership to the child. We firmly believe that ownership of learning impacts positively on children’s motivation to challenge themselves.
This ownership was previously promoted by allowing learners to choose their own level of maths tasks, where they would be encouraged to make decisions about the levels of challenge they could manage. We have since bought a Singapore Maths scheme; the reflective approach and decisions around which strategy to use to solve a problem fit perfectly with challenge and ownership.
Learners also have ownership over the marking of maths. The answers are on the tables and learners check after solving a few problems. If they have some wrong, they will unpick the steps they have gone through to understand where they have made an error or have a misconception. This deeper-level thinking can enable them to change their approach to get a solution. Should they not be able to see where they have gone wrong, the teacher will step in to guide or re-teach through a face-to-face conference.
Moving on from written marking
Conferences have taken the place of written marking. It was apparent to us for some time that reams of written marking or rows of ticks and dots, carried out away from the learning context and delivered back the next day, was, at best, hard for children to relate to and, at worst, a meaningless waste of time. With teacher workload high on the agenda, our decision to stop written marking altogether, for every subject, was not difficult to make. Our children already owned their learning, they knew how to self- and peer-assess effectively, and they were reflective, resilient and skilled learners. It was an easy step to hand over the pen.
Our marking and feedback procedure is simple. Children mark their own work according to the success criteria and they write a reflection on their learning – commenting on their understanding, successes and difficulties. They are also challenged to consider how they have approached the work and what they might do differently. Teachers look at the books every day and identify where there is a need to support or extend children’s learning. They plan in targeted 1:1 or group conferences for the following day, or hold spontaneous conferences, to address misconceptions, clarify points and extend thinking. During conference discussions, children are encouraged to consider where they have met their targets and to choose new ones, and to talk about the reflections they have made.
Children’s reflections are a window to their understanding, not just of concepts, but of themselves as learners. They provide teachers with far greater insight than a piece of work on its own and thus teachers can cater far more effectively for each child’s needs. Our approach to marking is not a stand-alone. It is an extension to the learning culture we have worked to create: a culture of learners who can recognise and be honest about where they are, who know where they need to go, and who are not afraid to share the responsibility for getting there.
Lesley Hill is headteacher of Lavender Primary School, a popular two-form entry school in North London, part of the Ivy Learning Trust and a member of NACE. She has taught across the primary age range and has also worked in adult basic education and on teacher training programmes. Her current role includes the design and delivery of leadership training at middle and senior leader level, and she also provides workshops on a range of subjects, such as growth mindset and marking. Her forthcoming book, Once Upon a Green Pen, explores approaches to create the right school culture.
Read more: log in to our members’ area to access the NACE Essentials guide to learning mindset, and the accompanying webinar.
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Posted By Ems Lord,
19 February 2018
Updated: 08 April 2019
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Ems Lord, Director of the University of Cambridge-based NRICH project, explains how one primary school developed learners’ conjecturing and convincing skills through the challenge of solving live maths problems – and the motivation of seeing their solutions published on the NRICH website.
What’s the problem?
Imagine the scene: your carefully planned problem-solving activity has completely engaged your class. They’re busily applying their mathematical skills in a real-life context and the higher attaining learners are being suitably stretched too. Towards the end of the session, you gather the class together to share their solutions. One of your high attainers raises a hand and suggests the correct answer. In response, you ask the inevitable question, “How do you know?” Instead of launching into a convincing argument, they simply shrug their shoulders and say “I just knew the answer!”
What are the three levels of conjecturing and convincing?
Developing the skills to conjecture and convince are essential components of our mathematics curriculum. Nevertheless, even high attainers sometimes struggle to explain their thoughts to others. They might have convinced themselves about their solution, but they are not yet able to convince another person. They need time to explore others’ solutions and develop their own convincing answers too. In Thinking Mathematically (1982), John Mason talks about three levels of convincing: convincing yourself, convincing an enemy and convincing a sceptic.
Submitting solutions to "Live Problems" on the NRICH website
As learners make the journey from being a novice to an expert at mathematical reasoning, they will progress through several distinct stages. To begin with, their solutions might simply describe how they went about solving their problem. “We do train them that it’s either right or wrong, don’t we?’ noted a teacher.
Following a visit from the NRICH team, which focused on using solutions to develop reasoning skills, the school’s mathematics subject leader set every class the challenge of submitting their own solutions to a Live Problem. The teachers began the process by exploring examples of learners’ work already published on the website, ordering the solutions according to their level of reasoning and comparing their different content. This session was supported by the article The Journey from Novice to Expert.
Back in class, the teachers introduced their classes to the various Live Problems on the NRICH site, explaining that the learners could submit their own solutions. This was incredibly motivating for learners. “There was a real reason for doing it, a bit like when you’re writing in English and you want a real reason,” explained a teacher.
Let’s look at one of the Live Problems explored by the learners. In Number Detective, learners need to identify a mystery number by following a list of clues:
- The mystery number has two digits.
- Both of its digits are even.
- The digit in the tens place is greater that the digit in the ones place.
- The ones digit is not in the three times table.
- The tens digit is not double the ones digit.
- The sum of the two digits is a multiple of five.

By focusing on explaining rather than describing their mathematical thinking, the learners developed their solution:
- Amelia says, “8 and 120 are not the number because 8 is one digit and 120 has three digits.”
- Aironas adds, “It can’t be 18 or 83 because they have odd digits.”
- “46 and 22 don’t have a tens number greater than the units number, so it can’t be them,” suggests Matas.
- Jessica states, “86 is not it because it has 6 in it (the 3x) and the rest are not.”
- Tommy D says, “It isn’t 42 because the tens digit is double the ones digit.”
- There are now only two possible answers left: 64 and 80.
- Lastly, Tommy C goes for it! “I think 64 is the answer because 6 + 4 = 10 and 10 is in the 5 times table.”
As you can see, the learners carefully explained their thinking. “I thought it would be daunting for them to be able to justify why they’d chosen a certain answer, why they’d decided on a certain thing and made a statement, but I was really surprised by how many wanted to stand up and justify themselves,” noted one of their teachers. Seeing their solution on the NRICH website created a buzz around the school and beyond: “They couldn’t wait to actually go home and tell their parents all about it.”
How can this be developed further?
Whatever their current level of reasoning, learners can also try writing their own problems for others to solve. One very successful approach is using the NRICH problem as a template. Here are two new versions of Number Detective submitted by learners from the school, which have since been published by NRICH:
As the learners progress through their schooling, they will be able to start justifying their solutions by providing a correct logical argument that has a complete chain of reasoning to it. Their improved solutions will include words such as “because”, “therefore”, “and so”, “that leads to”...
Having seen some of their learners’ work published on NRICH, I asked the teachers if they encourage their learners to try more Live Problems . “Yes, I would love to, definitely. It was fun,” one of them told me. More Live Problems are uploaded every half term and learners can also challenge themselves with some unsolved Tough Nuts problems.
If you would like to develop the reasoning skills in your classroom, make sure your class know about the latest Live Problems by subscribing to our free NRICH newsletter.
Ems Lord has been Director of NRICH since 2015, following a previous role leading one of the country's largest Mathematics Specialist Teacher Programmes. Ems has taught mathematics across the key stages, from early years to A-level Further Mathematics, and has worked in a variety of settings, including a hospital school. She’s supported schools as a leading mathematics teacher, local authority consultant and Chartered Mathematics Teacher, and has taught mathematics education on both BEd and PGCE teacher programmes. She is currently working on her PhD thesis, which explores approaches to improve support for those learning calculation skills, and is President-Elect of the Mathematical Association for 2019-2020.
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Posted By Ems Lord,
07 February 2018
Updated: 08 April 2019
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NACE is proud to partner with the NRICH project at the University of Cambridge’s Centre for Mathematical Sciences, which offers free online resources to enrich the mathematics curriculum, provide challenging and meaningful activities, and develop mathematical thinking and problem-solving skills. In this blog post, the project’s director, Ems Lord, explains why and how NRICH is developing resources designed to get GCSE students seriously interested in Further Mathematics…
Entries for the Further Mathematics A-level have tripled in recent years, from around 5,000 students in 2005 to a staggering 15,000 by 2015 (source: JCQ). But one of the greatest recent success stories in mathematics is under threat.

Figure 1: Entries for Further Mathematics up to 2016 (source: JCQ)
The transformation of Further Mathematics has all the ingredients of a great news story, yet the latest figures are alarming. Anecdotal evidence from both schools and colleges indicate a staggering 50% drop in the number of students opting to study Further Mathematics this year.
Recent changes in national policy promoting the study of three A-levels have hit Further Mathematics – often regarded as a fourth option – harder than most subjects. The NRICH team at the University of Cambridge has joined up with colleagues at the University of Oxford to address concerns regarding the current decline in Further Mathematics entries. The realisation that many GCSE students do not appreciate the opportunities offered by Further Mathematics led to our new set of free resources for schools, which we’ve called Adventures with Complex Numbers.
Why focus on complex numbers?
The current GCSE mathematics curriculum offers learners very limited insights into some of the most exciting topics awaiting them with Further Mathematics, such as complex numbers. The topic offers a terrific opportunity to give students interested in a range of different subjects a real taste of Further Mathematics well before they make their A-level choices. Complex numbers is an engaging topic for potential artists, engineers and scientists, as well as future mathematicians.
Figure 2: The Mandlebrot Fractal, a very popular concept with artists, who frequently exploit the level of detail and complexity revealed by zooming in on the original image.
What resources are available?
The key here is remembering that the resources created by NRICH are aimed at GCSE students; they are not intended for A-level teaching, although teachers may recognise their potential for those students too.
The materials adopt two straightforward approaches towards complex numbers. First, they explore the day-to-day applications of complex numbers in the real world. Learners can hear first-hand accounts about the crucial role that complex numbers play in the electricity networks that power our daily lives and how they help engineers keep structures safe and stable – as well as some spectacular examples of what can go wrong!
Figure 3: A dramatic clip from Professor Ahmer Wadee’s video Complex Numbers – Strength
The second approach encourages learners to explore complex numbers for themselves. The team have devised a range of animations which encourage a very hands-on approach, letting learners ask themselves “What if?” and giving them the tools to explore their ideas:
Figure 4: Screenshot from Vanishing Roots
So, they’re interested… What next?
We very much hope that learners enjoy the interactive resources and first-hand accounts exploring the uses of complex numbers. But the resources go much further than that. Learners can access a range of articles which take the topic much deeper, allowing them to discover how Heron of Alexandria missed his chance to explore the unknown mathematical land of complex numbers, as well as exploring the role of complex numbers in movie animation. For learners considering signing up for the Further Mathematics A-level, there’s also a live link to the national Further Mathematics Support Programme.
We’re not suggesting that this set of new resources will halt the declining numbers of Further Mathematics entries. Clearly, other agencies need to get involved too to arrest the decline. But we do hope they will offer an excellent starting point for engaging learners with the ideas they’ll encounter when studying Further Mathematics, and that they will be tempted to learn more about the possibilities offered by the subject.
Ems Lord has been Director of NRICH since 2015, following a previous role leading one of the country's largest Mathematics Specialist Teacher Programmes. Ems has taught mathematics across the key stages, from early years to A-level Further Mathematics, and has worked in a variety of settings, including a hospital school. She’s supported schools as a leading mathematics teacher, local authority consultant and Chartered Mathematics Teacher, and has taught mathematics education on both BEd and PGCE teacher programmes. She is currently working on her PhD thesis, which explores approaches to improve support for those learning calculation skills, and is President-Elect of the Mathematical Association for 2019-2020.
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Posted By Belle Cottingham,
28 November 2017
Updated: 08 April 2019
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In this second of two blog posts, mathematics consultant Belle Cottingham outlines five approaches to ensuring more able learners are effectively challenged within a maths mastery curriculum.
In my previous blog post, I argued that a maths mastery approach holds the key to ensuring our more able learners develop the creative problem-solving skills they need for success – not only in exams, but in life more generally.
Of course, this is all great in theory, but how do we effectively achieve differentiation in maths mastery? There isn’t a strict right or wrong answer, but here are five approaches to try…
1. Anticipate and adapt.
Good teachers anticipate. They know their learners and anticipate what they may say, what mistakes they may make, what answers they may give. All learners are different, with different strengths. Just because a learner is more capable at calculation, doesn’t necessarily mean that s/he is also more able at problem-solving or shapes.
Anticipating answers is not easy; it takes years of experience and constant growth and development from the teacher’s point of view. However, the more accurate the anticipation, the better the tasks and the more appropriate the challenges the teacher can set.
2. Use skilful questioning to promote conceptual understanding.
Mastery is not about doing repetitive questions. In fact, the beauty of mathematics itself, with or without mastery, is that it is infinitely stretchable. Questions can be solved in more than one way. Questions can be asked in more than one way.
For example, let’s imagine a group of children are learning the 8 times table. Some will be quicker than others. Some may already recall the tables. Just because they can recall them, however, doesn’t mean that they understand why.
“Why is 8 x 3 the same as 3 x 8?” “What does 8 x 6 look like?” “Is 8 x 6 > 6 x 9?” These are just some of the ways the question can be asked or extended.
Each of these questions will make learners think beyond the simple calculation. A calculator can calculate; a brain can reason, question, explore… Brains were built for exactly that!
3. Use problems that can be extended for more able learners.
The choice of tasks and questions used in the classroom should be carefully considered and selected. The questions should be set so everyone in the classroom can readily attempt them, falling within the overall knowledge bracket, but they should also be suitable for simple extension to challenge and deepen understanding.
Continuing the tables theme, a question like “Find different ways to calculate 12 x 4” can be very rich in answers.
Some students may add 12 + 12 + 12 + 12, making links between addition and multiplication.
Others use the multiplication facts that already know. The 2 and 10 times tables are taught before the 12 times table. Hence, they can calculate 2 x 4, 10 x 4, then add the results.
Or they can simply use the properties of multiplying by 4, double, then double again. 12 x 2 = 24 and 24 x 2 = 48.
There are many ways to think about multiplying two numbers, and each of them can link to other ideas, concepts and applications.
4. Use concrete pictorial and abstract (“CPA”) representation.
More able learners can benefit as much as their peers from the use of CPA representation to visualise and represent mathematics in different ways.
Providing concrete material for everyone will facilitate more able learners’ need to meet problems which are presented in different ways, in different contexts and with use of more varied vocabulary. Using the table question, more able learners may use counters or marbles to explain to a partner what 6 x 8 looks like. Being able to articulate the mathematical thinking is a very important skill that we need our future mathematicians, engineers, teachers and doctors to have.
More able learners may also be encouraged to work in mixed-ability groups and asked to write a question based on a picture they see, or write a question that has a mistake in it… The options of extending a mathematical task are limitless and the more it happens, the more robust the mathematical foundation in our learners will be.
5. Allow time to explore, think and reflect.
This is very important for all learning to happen. The mastery approach provides this. Reflecting on mistakes that a learner has made herself, or that someone else in the classroom made, is a very good strategy that can be used to clear any misconceptions, and is particularly effective through the learners’ own voices. Having time for reflection is crucial in creating maps of knowledge that can be used in developing future concepts or embedding the roots of the existing ones.
Mathematics consultant Belle Cottingham has a Masters in Mathematics and Learning, and a decade’s experience in teaching and tutoring maths for all ages and abilities. A member of the Mathematical Association, Association of Teachers of Mathematics, National Association of Mathematics Advisers, and Japan’s Project Impuls, she writes for the Mathematical Pie Magazine and has authored teaching guides and textbooks, including contributions to the Rising Stars Mathematics range. You can follow her on WordPress and Twitter.
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